Pawel Keblinski

26.2k total citations · 8 hit papers
210 papers, 20.6k citations indexed

About

Pawel Keblinski is a scholar working on Materials Chemistry, Biomedical Engineering and Atomic and Molecular Physics, and Optics. According to data from OpenAlex, Pawel Keblinski has authored 210 papers receiving a total of 20.6k indexed citations (citations by other indexed papers that have themselves been cited), including 162 papers in Materials Chemistry, 53 papers in Biomedical Engineering and 34 papers in Atomic and Molecular Physics, and Optics. Recurrent topics in Pawel Keblinski's work include Thermal properties of materials (79 papers), Carbon Nanotubes in Composites (37 papers) and Material Dynamics and Properties (32 papers). Pawel Keblinski is often cited by papers focused on Thermal properties of materials (79 papers), Carbon Nanotubes in Composites (37 papers) and Material Dynamics and Properties (32 papers). Pawel Keblinski collaborates with scholars based in United States, Italy and Germany. Pawel Keblinski's co-authors include Simon R. Phillpot, J. A. Eastman, Patrick K. Schelling, Soo-Chang Choi, David G. Cahill, William J. Evans, D. Wolf, Li‐Ping Xue, Sergei Shenogin and Tapan Desai and has published in prestigious journals such as Science, Proceedings of the National Academy of Sciences and Physical Review Letters.

In The Last Decade

Pawel Keblinski

207 papers receiving 20.0k citations

Hit Papers

Mechanisms of heat flow i... 1999 2026 2008 2017 2002 2014 2002 2003 1999 500 1000 1.5k
What are hit papers?

Hit papers significantly outperform the citation benchmark for their cohort. A paper qualifies if it has ≥500 total citations, achieves ≥1.5× the top-1% citation threshold for papers in the same subfield and year (this is the minimum needed to enter the top 1%, not the average within it), or reaches the top citation threshold in at least one of its specific research topics.

  1. Mechanisms of heat flow in suspensions of nano-sized particles (nanofluids)
    2002 1.8k citations Pawel Keblinski, Simon R. Phillpot et al. International Journal of Heat and Mass Transfer profile →
  2. Nanoscale thermal transport. II. 2003–2012
    2014 1.3k citations David G. Cahill, Paul V. Braun et al. profile →
  3. Comparison of atomic-level simulation methods for computing thermal conductivity
    2002 1.3k citations Patrick K. Schelling, Simon R. Phillpot et al. profile →
  4. Interfacial heat flow in carbon nanotube suspensions
    2003 910 citations David G. Cahill, Sergei Shenogin et al. profile →
  5. Exact method for the simulation of Coulombic systems by spherically truncated, pairwise r−1 summation
    1999 764 citations Pawel Keblinski, Simon R. Phillpot et al. The Journal of Chemical Physics profile →
  6. Nanofluids for thermal transport
    2005 761 citations Pawel Keblinski, David G. Cahill et al. profile →
  7. THERMAL TRANSPORT IN NANOFLUIDS
    2004 723 citations Simon R. Phillpot, Pawel Keblinski et al. profile →
  8. Ultralow Thermal Conductivity in Disordered, Layered WSe 2 Crystals
    2006 709 citations David G. Cahill, Pawel Keblinski et al. Science profile →

Peers — A (Enhanced Table)

Peers by citation overlap · career bar shows stage (early→late) cites · hero ref

Name h Career Trend Papers Cites
Pawel Keblinski United States 67 13.1k 7.4k 5.4k 2.8k 2.4k 210 20.6k
Simon R. Phillpot United States 72 20.8k 1.6× 5.1k 0.7× 7.7k 1.4× 2.7k 1.0× 4.0k 1.7× 355 28.0k
David G. Cahill United States 87 24.4k 1.9× 6.4k 0.9× 4.2k 0.8× 7.2k 2.6× 8.0k 3.4× 384 34.2k
Chun Ning Lau United States 50 20.0k 1.5× 7.3k 1.0× 2.0k 0.4× 2.4k 0.8× 7.7k 3.2× 127 26.7k
Patrick E. Hopkins United States 64 11.3k 0.9× 2.0k 0.3× 2.9k 0.5× 3.2k 1.1× 3.6k 1.5× 364 15.1k
Alexander A. Balandin United States 85 35.4k 2.7× 8.9k 1.2× 4.0k 0.7× 5.6k 2.0× 12.7k 5.4× 416 43.8k
Wanlin Guo China 68 11.4k 0.9× 4.8k 0.7× 2.6k 0.5× 1.1k 0.4× 5.3k 2.2× 505 18.9k
Franz Faupel Germany 57 6.4k 0.5× 3.9k 0.5× 3.0k 0.6× 303 0.1× 4.1k 1.7× 423 13.4k
H. Gleiter Germany 76 21.9k 1.7× 3.2k 0.4× 15.4k 2.9× 412 0.1× 3.3k 1.4× 347 28.9k
Wenzhong Bao China 58 19.9k 1.5× 7.6k 1.0× 2.1k 0.4× 2.3k 0.8× 9.6k 4.1× 188 27.5k
Xianfan Xu United States 49 10.8k 0.8× 3.7k 0.5× 827 0.2× 783 0.3× 5.4k 2.3× 251 15.5k

Countries citing papers authored by Pawel Keblinski

Since Specialization
Citations

This map shows the geographic impact of Pawel Keblinski's research. It shows the number of citations coming from papers published by authors working in each country. You can also color the map by specialization and compare the number of citations received by Pawel Keblinski with the expected number of citations based on a country's size and research output (numbers larger than one mean the country cites Pawel Keblinski more than expected).

Fields of papers citing papers by Pawel Keblinski

Since Specialization
Physical SciencesHealth SciencesLife SciencesSocial Sciences

This network shows the impact of papers produced by Pawel Keblinski. Nodes represent research fields, and links connect fields that are likely to share authors. Colored nodes show fields that tend to cite the papers produced by Pawel Keblinski. The network helps show where Pawel Keblinski may publish in the future.

Co-authorship network of co-authors of Pawel Keblinski

This figure shows the co-authorship network connecting the top 25 collaborators of Pawel Keblinski. A scholar is included among the top collaborators of Pawel Keblinski based on the total number of citations received by their joint publications. Widths of edges represent the number of papers authors have co-authored together. Node borders signify the number of papers an author published with Pawel Keblinski. Pawel Keblinski is excluded from the visualization to improve readability, since they are connected to all nodes in the network.

All Works

20 of 20 papers shown
1.
Wasiucionek, M., et al.. (2025). Structural characterization of amorphous Bi 2 O 3 obtained by molecular dynamics simulation of melt quenching. Physica B Condensed Matter. 701. 416932–416932.
2.
Sengupta, Bratin, Qiaobei Dong, Dinesh Behera, et al.. (2023). Carbon-doped metal oxide interfacial nanofilms for ultrafast and precise separation of molecules. Science. 381(6662). 1098–1104. 62 indexed citations
3.
Ramanath, Ganpati, Geetu Sharma, Johan G. Alauzun, et al.. (2023). Engineering inorganic interfaces using molecular nanolayers. Applied Physics Letters. 122(26). 6 indexed citations
4.
Ramanath, Ganpati, et al.. (2022). Viscoelastic bandgap in multilayers of inorganic–organic nanolayer interfaces. Scientific Reports. 12(1). 10788–10788. 5 indexed citations
5.
Babaei, Hasan, et al.. (2021). Interfacial thermal conductance between multi-layer graphene sheets and solid/liquid octadecane: A molecular dynamics study. Journal of Energy Storage. 37. 102469–102469. 14 indexed citations
6.
Ranganathan, Raghavan, et al.. (2019). Viscoelastic and dynamic properties of polymer grafted nanocomposites with high glass transition temperature graft chains. Journal of Applied Physics. 126(19). 8 indexed citations
7.
Ranganathan, Raghavan, et al.. (2017). Viscoelastic and Dynamic Properties of Well-Mixed and Phase-Separated Binary Polymer Blends: A Molecular Dynamics Simulation Study. Macromolecules. 50(16). 6293–6302. 10 indexed citations
8.
Ranganathan, Raghavan, et al.. (2015). Modeling high-temperature diffusion of gases in micro and mesoporous amorphous carbon. The Journal of Chemical Physics. 143(8). 84701–84701. 12 indexed citations
9.
Ranganathan, Raghavan, Kiran Sasikumar, & Pawel Keblinski. (2015). Realizing tunable molecular thermal devices based on photoisomerism—Is it possible?. Journal of Applied Physics. 117(2). 4 indexed citations
10.
Babaei, Hasan, Pawel Keblinski, & J. M. Khodadadi. (2013). Improvement in thermal conductivity of paraffin by adding high aspect-ratio carbon-based nano-fillers. Physics Letters A. 377(19-20). 1358–1361. 66 indexed citations
11.
Losego, Mark D., et al.. (2011). Testing the minimum thermal conductivity model for amorphous polymers using high pressure. Bulletin of the American Physical Society. 2011. 1 indexed citations
12.
Hu, Lin, Tapan Desai, & Pawel Keblinski. (2011). Thermal transport in graphene-based nanocomposite. Journal of Applied Physics. 110(3). 92 indexed citations
13.
Şen, Sinan, et al.. (2007). Molecular underpinnings of the mechanical reinforcement in polymer nanocomposites (vol 40, pg 4059, 2007). Macromolecules. 40(13). 4732–4732. 2 indexed citations
14.
Watanabe, Taku, Boris Ni, Simon R. Phillpot, Patrick K. Schelling, & Pawel Keblinski. (2007). Thermal conductance across grain boundaries in diamond from molecular dynamics simulation. Journal of Applied Physics. 102(6). 45 indexed citations
15.
Kumar, Sanat K., et al.. (2007). Molecular Underpinnings of the Mechanical Reinforcement in Polymer Nanocomposites. Volume 40, Number 11, May 29, 2007, pp 4059−4067.. Macromolecules. 40(13). 4732–4732. 4 indexed citations
16.
Khare, Rajesh, Pawel Keblinski, & Arun Yethiraj. (2006). Molecular dynamics simulations of heat and momentum transfer at a solid–fluid interface: Relationship between thermal and velocity slip. International Journal of Heat and Mass Transfer. 49(19-20). 3401–3407. 65 indexed citations
17.
Prasher, Ravi, William J. Evans, Paul Meakin, et al.. (2006). Effect of aggregation on thermal conduction in colloidal nanofluids. Applied Physics Letters. 89(14). 338 indexed citations
18.
Garde, Shekhar, et al.. (2005). Thermal Resistance of Nanoscopic Liquid−Liquid Interfaces:  Dependence on Chemistry and Molecular Architecture. Nano Letters. 5(11). 2225–2231. 95 indexed citations
19.
Danailov, Daniel M., Pawel Keblinski, Saroj K. Nayak, & Pulickel M. Ajayan. (2002). Bending Properties of Carbon Nanotubes Encapsulating Solid Nanowires. Journal of Nanoscience and Nanotechnology. 2(5). 503–507. 23 indexed citations
20.
Keblinski, Pawel, Amos Maritan, Flavio Toigo, R. Messier, & Jayanth R. Banavar. (1996). Continuum model for the growth of interfaces. Physical review. E, Statistical physics, plasmas, fluids, and related interdisciplinary topics. 53(1). 759–778. 35 indexed citations

Rankless uses publication and citation data sourced from OpenAlex, an open and comprehensive bibliographic database. While OpenAlex provides broad and valuable coverage of the global research landscape, it—like all bibliographic datasets—has inherent limitations. These include incomplete records, variations in author disambiguation, differences in journal indexing, and delays in data updates. As a result, some metrics and network relationships displayed in Rankless may not fully capture the entirety of a scholar's output or impact.

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